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Properties and Characterization of Modern Materials [electronic resource] / edited by Andreas Öchsner, Holm Altenbach.

Contributor(s): Öchsner, Andreas [editor.] | Altenbach, Holm [editor.] | SpringerLink (Online service).
Material type: materialTypeLabelBookSeries: Advanced Structured Materials: 33Publisher: Singapore : Springer Nature Singapore : Imprint: Springer, 2017Edition: 1st ed. 2017.Description: X, 452 p. 339 illus., 222 illus. in color. online resource.Content type: text Media type: computer Carrier type: online resourceISBN: 9789811016028.Subject(s): Mechanics, Applied | Solids | Building materials | Solid Mechanics | Structural MaterialsAdditional physical formats: Printed edition:: No title; Printed edition:: No title; Printed edition:: No titleDDC classification: 620.105 Online resources: Click here to access online
Contents:
1 Options for Nanoreinforced Cast Al-Si Alloys with TiO2 Nanoparticles -- 2 Mechanical Properties and Wear Resistance of Semisolid Cast Al2O3 Nano Reinforced Hypo and Hyper-eutectic Al-Si Composites -- 3 Simulation of a Crack Emanating from a Microvoid in Cement of a Reconstructed Acetabulum -- 4 Surface properties of microfibers and nanofiber composites tested in contact with bacteria E. coli and fungi of the Candida genus. .
In: Springer Nature eBookSummary: This book focuses on robust characterization and prediction methods for materials in technical applications as well as the materials’ safety features during operation. In particular, it presents methods for reliably predicting material properties, an aspect that is becoming increasingly important as engineering materials are pushed closer and closer to their limits to boost the performance of machines and structures. To increase their engineering value, components are now designed under the consideration of their multiphysical properties and functions, which requires much more intensive investigation and characterization of these materials. The materials covered in this monograph range from metal-based groups such as lightweight alloys, to advanced high-strength steels and modern titanium alloys. Furthermore, a wide range of polymers and composite materials (e.g. with micro- and nanoparticles or fibres) is covered. The book explores methods for property prediction from classical mechanical characterization-related fields of application, for example, from wear, creep, fatigue and crack growth, to specific surface properties, to dielectric and electrochemical values. As in all fields of modern engineering, the process is often accompanied by numerical simulation and optimization.
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1 Options for Nanoreinforced Cast Al-Si Alloys with TiO2 Nanoparticles -- 2 Mechanical Properties and Wear Resistance of Semisolid Cast Al2O3 Nano Reinforced Hypo and Hyper-eutectic Al-Si Composites -- 3 Simulation of a Crack Emanating from a Microvoid in Cement of a Reconstructed Acetabulum -- 4 Surface properties of microfibers and nanofiber composites tested in contact with bacteria E. coli and fungi of the Candida genus. .

This book focuses on robust characterization and prediction methods for materials in technical applications as well as the materials’ safety features during operation. In particular, it presents methods for reliably predicting material properties, an aspect that is becoming increasingly important as engineering materials are pushed closer and closer to their limits to boost the performance of machines and structures. To increase their engineering value, components are now designed under the consideration of their multiphysical properties and functions, which requires much more intensive investigation and characterization of these materials. The materials covered in this monograph range from metal-based groups such as lightweight alloys, to advanced high-strength steels and modern titanium alloys. Furthermore, a wide range of polymers and composite materials (e.g. with micro- and nanoparticles or fibres) is covered. The book explores methods for property prediction from classical mechanical characterization-related fields of application, for example, from wear, creep, fatigue and crack growth, to specific surface properties, to dielectric and electrochemical values. As in all fields of modern engineering, the process is often accompanied by numerical simulation and optimization.

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